Hui-ping Dai

Prof. Dr. Hui-ping Dai


Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 December 2021 in Chemosphere
Verified
Journal Article
Closed access
LXLei Xu
Lei Xu
HDHui-ping Dai
Hui-ping Dai
LSLidia Skuza
Lidia Skuza
Shuhe WeiShuhe Wei
Shuhe Wei

6 April 2022 in Ecotoxicology and Environmental Safety
Verified
Journal Article
Open access
LXLei Xu
Lei Xu
HDHui-ping Dai
Hui-ping Dai
Lidia SkuzaLidia Skuza
Lidia Skuza
JXJianming Xu
Jianming Xu
JSJiachun Shi
Jiachun Shi
SWShuhe Wei
Shuhe Wei
The Jiangzhe Area was relatively common area that rely on industrial process for rapid development with serious heavy metals contamination. This study investigated the spatial, vertical and speciation distribution, correlation of heavy metals, as well as assessed pollution and health risks in three representative contamination industries at Jingjiang (electroplating site), Taizhou (e-waste recycling site) and Wenzhou (leather production site) in the Jiangzhe Area. The results indicated that the Cr(VI) pollution was serious in all three sites and there was a tendency to gradually decrease with depth. As for other heavy metals, not only the total concentration, but also the addition of acid soluble and reducible speciation generally decreased with soil depth at Jingjiang and Taizhou sites. Significantly positive correlations supported by correlation analysis were detected between the following elements: Cu-Ni (p < 0.01), Cr(VI)-Ni (p < 0.05) and Cr(VI)-Cu (p < 0.05) at Jingjiang site, Cu-Ni (p < 0.01), Cu-Cd (p < 0.01) and Ni-Cd (p < 0.05) at Taizhou site indicating possibly the same sources and pathways of origin, while the significantly negative correlation of Cd-Ni (p < 0.05) at Wenzhou site meaning the different sources. As regards the pollution assessment of topsoil, the mean PI value indicated that Cr(VI) contaminated severe in all three sites. In general, Jingjiang site was severe pollution (4.06), while Taizhou and Wenzhou (2.27 and 2.66) were moderate pollution, as NIPI value shown. In terms of health risk assessment that received much attention, non-carcinogenic risks caused by Pb contamination were significant for children at Jingjiang and Taizhou sites, with the HI values of 3.42E+ 00 and 2.03E+ 00, respectively. Ni caused unacceptable carcinogenic risk for both adults and children at all three sites. The present study can help to better understand the contamination characteristics of heavy metals in the commonly developed industrial area, and thus to control the environmental quality, so as to truly achieve the goal of "Green Deal objectives ".

15 April 2022 in Chemosphere
Verified
Journal Article
Closed access
LXLei Xu
Lei Xu
HDHui-ping Dai
Hui-ping Dai
LSLidia Skuza
Lidia Skuza
JXJianming Xu
Jianming Xu
JSJiachun Shi
Jiachun Shi
Shuhe WeiShuhe Wei
Shuhe Wei

18 May 2022 in Environmental Pollution
Verified
Journal Article
Closed access
XDXuekai Dou
Xuekai Dou
HDHui-ping Dai
Hui-ping Dai
LSLidia Skuza
Lidia Skuza
Shuhe WeiShuhe Wei
Shuhe Wei

25 February 2022 in Chemosphere
Verified
Journal Article
Closed access
SWSiqi Wang
Siqi Wang
HDHui-ping Dai
Hui-ping Dai
LSLidia Skuza
Lidia Skuza
YCYanqiu Chen
Yanqiu Chen
Shuhe WeiShuhe Wei
Shuhe Wei

1 September 2021 in Ecotoxicology and Environmental Safety
Verified
Journal Article
Open access
RHRan Han
Ran Han
HDHui-ping Dai
Hui-ping Dai
BGBin Guo
Bin Guo
ANAzam Noori
Azam Noori
WSWanchun Sun
Wanchun Sun
Shuhe WeiShuhe Wei
Shuhe Wei
This study focused on the effects of eight medicinal plant extracts on Solanum nigrum L. potential to accumulate Cd and Pb from soil. These medicinal plants were common and relatively cheap. The eight 10% water extracts were made from the peel of Citrus reticulata Blanco (PCR), fruit of Phyllanthus emblica L. (FPE), root of Pueraria Lobata (Willd.) Ohwi (RPL), rhizome of Polygonatum sibiricum Red (RPS), root of Astragalus propinquus Schischkin (RAP), bud of Hemerocallis citrina Baroni (BHC), seed of Nelumbo nucifera Gaertn (SNN) and fruit of Prunus mume (Sieb.) Sieb.etZuce (FPM). The results showed that among all exposures, the treatment with FPE resulted in the significant increase (p < 0.05) of Cd and Pb concentration in shoots and roots of S. nigrum by 32.5% and 65.2% for Cd, and 38.7% and 39.6% for Pb. The biomasses of S. nigrum in all plant extract treatments were not significantly changed (p < 0.05) compared to the control (CK). The Cd and Pb extraction rates of S. nigrum in FPE treatment were increased respectively by 60.5% and 40.5% compared to CK. Though the treatment with EDTA significantly improved (p < 0.05) the concentration of Cd and Pb of S. nigrum, the Cd and Pb masses (ug plant-1) of S. nigrum did not show any significant difference compared to the CK due to the significant decrease in the shoot (20.4%) and root (22.0%) biomasses. The chelative role of FPE might be relation with its higher polyphenolic compounds. However, not sure if the contents of polyphenolic compounds was the only differences between FPE and other additives. Thus, some unknown organic matters might also play active role. This study provided valuable information on improving the phytoremediation potential of hyperaccumulator.